Automotive

Automotive parts typically compete on price in a market with narrow margins, and that requires production where working hours are not the limiting factor. Our robot-cell and bar-magazine-fed turning cells and the milling FMS keep machines running far beyond normal working hours, directly reducing unit price in large series.

Automation also means capacity can be scaled up relatively quickly in response to a rise in demand, provided material and fixturing are planned in good time. We are happy to discuss expected volume trends so we can allocate capacity before the need becomes urgent, rather than reacting only once an order is already in hand.

Even in highly automated production, monitoring and process optimisation remain a human task. Our operators follow the process continuously, adjust tooling and cutting data at signs of wear, and intervene before a trend develops into a scrapped series. Automation does not replace craftsmanship, it amplifies its effect.

Automotive customers often work with tight production schedules, where delayed deliveries quickly have consequences further down the chain. We enter agreements with agreed call-offs and buffer stock, where the customer can draw on a fixed quantity of finished parts at short notice, while we continuously replenish the buffer based on an agreed forecast.

Supporting that kind of agreement requires our own planning of material, capacity and inspection resources to be forward-looking rather than reacting only to the individual order. We follow the customer's consumption pattern over time and adjust the production plan continuously, so the buffer is neither too large nor too small relative to actual need.

In the event of unforeseen disruption, for example a machine breakdown or a material shortage at our own supplier, we notify the customer as early as possible and discuss alternative solutions, rather than waiting until the agreed delivery date approaches. Open communication about risk is part of what we consider good delivery reliability.

In automotive it is common to require documented process capability, not just tolerance compliance on the individual part. We apply statistical process control in large series and can supply periodic capability reports showing how stable and centred a process is over time, in the format and at the frequency the customer requests.

When a process shows signs of drifting towards a tolerance limit, it is adjusted before it affects delivered parts, and the event is documented as part of ongoing quality follow-up. That makes it possible to demonstrate a consistent history over a long period, which is often a precondition for retaining status as an approved supplier.

We update capability documentation whenever tooling, material or fixturing changes, so it always reflects the current process. Historical data is archived so a trend over several years can be analysed if the customer wants to understand how a process has developed over the product's entire service life.

Automotive programmes often span several years with an expected volume curve that rises, peaks and falls again in line with the finished product's life cycle. We plan our own capacity around that curve when the customer shares it with us, so investment in tooling and fixturing follows actual need, neither too early nor too late.

Towards the end of a programme's life, as volume falls, we adapt the production method so unit price does not rise unnecessarily even at lower quantities. That can mean moving from a fully automated setup to a more flexible, less capital-intensive process once the total quantity no longer justifies the original investment.

We are happy to discuss how a closing phase or the eventual phase-out of a programme is managed, including whether a final buffer of spare parts should be produced before tooling and fixturing are potentially taken out of service. That kind of planning gives the customer confidence in supply right up to the programme's end.